Claudia Cirineo Ferreira Monteiro, Gabriel Sarache, Jaqueline G. B. Januário, K. Berwig, G. Raniero, A. R. G. Monteiro, F. D. Silva
{"title":"Biopolymer Based on Brewing Waste and Extruded Maize: Characterization and Application","authors":"Claudia Cirineo Ferreira Monteiro, Gabriel Sarache, Jaqueline G. B. Januário, K. Berwig, G. Raniero, A. R. G. Monteiro, F. D. Silva","doi":"10.3303/CET2187054","DOIUrl":null,"url":null,"abstract":"The brewing industry produces more than 100 billion litres a year worldwide and consequently more than 20 million ton of solid waste. This waste is mostly destined for animal feed; however, it ends up being a form of disposal of low added value. On the other hand, furniture and decorations items of a bar can use such waste for its confection, which adds value to the waste and mentions the own beer. This work aimed to develop and characterize a biopolymer obtained from the brewing residue (milled malt after mashing process) and extruded maize to be used as a raw material for furniture and in architectural wall coverings. The proportions of components, time and temperature of the drying process and malt milling were variated in nine treatments. The wood chipboard was used as a control as well. Tensile strength, young's modulus, and elongation at break were analysed, water absorption index (WAI) and water solubility index (WSI) were determined, and the colour was evaluated. After the material was characterised, the better mixtures were applied to make a board used in furniture and wall coverings. The sensorial analysis (visual) was made with 117 non trained panellists to evaluate the new material's acceptance to replace wood-based boards. The main results showed that lower drying temperature, as well as the higher amount of extruded maize, could increase the resistance of the material. There is no significant evidence that particle size affects the material's resistance; on the other hand, it was essential to increase the material acceptability, the smaller was particle size, the better was the acceptance as a substitute of wood-based boards. It was possible to conclude that the material has high acceptance and adequate physical properties to be used in some furniture and covering walls. It is an excellent alternative to increase the value of this industrial waste.","PeriodicalId":9695,"journal":{"name":"Chemical engineering transactions","volume":"2020 1","pages":"319-324"},"PeriodicalIF":0.0000,"publicationDate":"2021-07-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Chemical engineering transactions","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.3303/CET2187054","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q3","JCRName":"Chemical Engineering","Score":null,"Total":0}
引用次数: 0
Abstract
The brewing industry produces more than 100 billion litres a year worldwide and consequently more than 20 million ton of solid waste. This waste is mostly destined for animal feed; however, it ends up being a form of disposal of low added value. On the other hand, furniture and decorations items of a bar can use such waste for its confection, which adds value to the waste and mentions the own beer. This work aimed to develop and characterize a biopolymer obtained from the brewing residue (milled malt after mashing process) and extruded maize to be used as a raw material for furniture and in architectural wall coverings. The proportions of components, time and temperature of the drying process and malt milling were variated in nine treatments. The wood chipboard was used as a control as well. Tensile strength, young's modulus, and elongation at break were analysed, water absorption index (WAI) and water solubility index (WSI) were determined, and the colour was evaluated. After the material was characterised, the better mixtures were applied to make a board used in furniture and wall coverings. The sensorial analysis (visual) was made with 117 non trained panellists to evaluate the new material's acceptance to replace wood-based boards. The main results showed that lower drying temperature, as well as the higher amount of extruded maize, could increase the resistance of the material. There is no significant evidence that particle size affects the material's resistance; on the other hand, it was essential to increase the material acceptability, the smaller was particle size, the better was the acceptance as a substitute of wood-based boards. It was possible to conclude that the material has high acceptance and adequate physical properties to be used in some furniture and covering walls. It is an excellent alternative to increase the value of this industrial waste.
期刊介绍:
Chemical Engineering Transactions (CET) aims to be a leading international journal for publication of original research and review articles in chemical, process, and environmental engineering. CET begin in 2002 as a vehicle for publication of high-quality papers in chemical engineering, connected with leading international conferences. In 2014, CET opened a new era as an internationally-recognised journal. Articles containing original research results, covering any aspect from molecular phenomena through to industrial case studies and design, with a strong influence of chemical engineering methodologies and ethos are particularly welcome. We encourage state-of-the-art contributions relating to the future of industrial processing, sustainable design, as well as transdisciplinary research that goes beyond the conventional bounds of chemical engineering. Short reviews on hot topics, emerging technologies, and other areas of high interest should highlight unsolved challenges and provide clear directions for future research. The journal publishes periodically with approximately 6 volumes per year. Core topic areas: -Batch processing- Biotechnology- Circular economy and integration- Environmental engineering- Fluid flow and fluid mechanics- Green materials and processing- Heat and mass transfer- Innovation engineering- Life cycle analysis and optimisation- Modelling and simulation- Operations and supply chain management- Particle technology- Process dynamics, flexibility, and control- Process integration and design- Process intensification and optimisation- Process safety- Product development- Reaction engineering- Renewable energy- Separation processes- Smart industry, city, and agriculture- Sustainability- Systems engineering- Thermodynamic- Waste minimisation, processing and management- Water and wastewater engineering